# libraries
library(forcats)
library(lubridate)
library(plotly)
library(readr)
library(tidyverse)
# data
scoobydoo <- readr::read_csv('https://raw.githubusercontent.com/rfordatascience/tidytuesday/master/data/2021/2021-07-13/scoobydoo.csv')
scooby doo

scooby doo

Introduction

This weeks Tidy Tuesday dataset comes from Kaggle by way of manual data aggregation from plummye.

Every Scooby-Doo episode and movie’s various variables.

Took ~1 year to watch every Scooby-Doo iteration and track every variable. Many values are subjective by nature of watching but I tried my hardest to keep the data collection consistent.

If you plan to use this data for anything school/entertainment related you are free to (credit is always welcome).

Notebook can be viewed by pasting the github URL to this document into https://nbviewer.jupyter.org/.

scoobydoo %>% head(5)
# values
color_scheme1 <- c(
  "#228B22", # aka forest green (Best)
  "#98FB98", # aka pale green (Top 3)
  "#D3D3D3", # aka light grey (Other)
  "#FFB6C1", # aka light pink (Bottom 3)
  "#DC143C" # aka crimson (Worst)
  )

color_scheme2 <- c(
  "#228B22", # aka forest green (Great)
  "#98FB98", # aka pale green (OK)
  "#FFB6C1", # aka light pink (Meh)
  "#DC143C" # aka crimson (Worst)
  )

the_gang <- c("Fred", "Daphnie", "Velma", "Shaggy", "Scooby")

IMDb Time Series Analysis

By Series

## get summary info for each season
series_info <- scoobydoo %>%
  filter(
    !(season %in% c("Movie", "Special"))
  ) %>%
  mutate(
    year = year(date_aired),
    imdb = as.double(imdb),
    engagement = as.double(engagement)
  ) %>%
  group_by(series_name, network) %>%
  dplyr::summarise(
    series_start = min(date_aired),
    series_end = max(date_aired),
    n_episodes = n(),
    mean_imdb = mean(imdb, na.rm = TRUE),
    mean_engagement = mean(engagement, na.rm = TRUE)
  ) %>%
  ungroup() %>%
  filter(n_episodes > 1) %>% # filter out movie events
  arrange(series_start, series_end) %>%
  mutate(
    series_id = as.double(row_number())
  )

series_info <- series_info %>%
  mutate(
    ranking = case_when(
      series_id == head(arrange(series_info, desc(mean_imdb)), 1)$series_id ~ "Best Series",
      series_id %in% head(arrange(series_info, desc(mean_imdb)), 3)$series_id ~ "Top 3 Series",
      series_id == head(arrange(series_info, mean_imdb), 1)$series_id ~ "Worst Series",
      series_id %in% head(arrange(series_info, mean_imdb), 3)$series_id ~ "Bottom 3 Series",
      TRUE ~ "Other"
    ),
    ranking = factor(ranking, levels = c("Best Series", "Top 3 Series", "Other", "Bottom 3 Series", "Worst Series"))
  )
# plot series over time
series_info %>%
  plot_ly(
    type = 'bar',
    mode = 'markers',
    x = ~series_id,
    y = ~mean_imdb,
    color = ~ranking,
    colors = color_scheme1,
    text = ~paste0("<b>", series_name, "</b><br>",
                   "<i>Aired from ", series_start, " to ", series_end, " on ", network, "</i><br><br>",
                   "Mean IMDb Score: ", round(mean_imdb, 2), " (Number of Reviews: ", round(mean_engagement), ")<br>",
                   "Episodes: ", n_episodes, "<br>")
  ) %>%
  layout(
    title = 'IMDb Scores for Scooby Doo Series Over Time',
    xaxis = list(title = 'Sequential Series Number', showticklabels = FALSE),
    yaxis = list(title = 'Mean IMDb Score'),
    legend = list(orientation = 'h', y = -0.3),
    width = 900,
    height = 400
  )

By Seasons

## get summary info for each season
season_info <- scoobydoo %>%
  mutate(
    year = year(date_aired),
    imdb = as.double(imdb),
    engagement = as.double(engagement)
  ) %>%
  group_by(series_name, network, season) %>%
  dplyr::summarise(
    season_start = min(date_aired),
    season_end = max(date_aired),
    n_episodes = n(),
    mean_imdb = mean(imdb, na.rm = TRUE),
    mean_engagement = mean(engagement, na.rm = TRUE)
  ) %>%
  ungroup() %>%
  filter(n_episodes > 1 & !(season %in% c("Movie", "Special"))) %>% # filter out movie events
  arrange(season_start, season_end) %>%
  mutate(
    season_id = as.double(row_number())
  )

season_info <- season_info %>%
  mutate(
    ranking = case_when(
      season_id == head(arrange(season_info, desc(mean_imdb)), 1)$season_id ~ "Best Season",
      season_id %in% head(arrange(season_info, desc(mean_imdb)), 3)$season_id ~ "Top 3 Season",
      season_id == head(arrange(season_info, mean_imdb), 1)$season_id ~ "Worst Season",
      season_id %in% head(arrange(season_info, mean_imdb), 3)$season_id ~ "Bottom 3 Season",
      TRUE ~ "Other"
    ),
    ranking = factor(ranking, levels = c("Best Season", "Top 3 Season", "Other", "Bottom 3 Season", "Worst Season"))
  )

The average Scooby Doo TV series has 2.0625 seasons. That’s so few!

# plot season over time
season_info %>%
  plot_ly(
    type = 'bar',
    mode = 'markers',
    x = ~season_id,
    y = ~mean_imdb,
    color = ~ranking,
    colors = color_scheme1,
    text = ~paste0("<b>", series_name, " - Season ", season, "</b><br>",
                   "<i>Aired from ", season_start, " to ", season_end, " on ", network, "</i><br><br>",
                   "Mean IMDb Score: ", round(mean_imdb, 2), " (Number of Reviews: ", round(mean_engagement), ")<br>",
                   "Episodes: ", n_episodes, "<br>")
  ) %>%
  layout(
    title = 'IMDb Scores for Scooby Doo Seasons Over Time',
    xaxis = list(title = 'Sequential Season Number', showticklabels = FALSE),
    yaxis = list(title = 'Mean IMDb Score'),
    legend = list(orientation = 'h', y = -0.3),
    width = 900,
    height = 400
  )

By Episodes

scoobydoo %>%
  left_join(series_info, by = c("series_name", "network")) %>%
    filter(
    !(is.na(imdb)),
    imdb != "NULL",
    engagement != "NULL",
    !(season %in% c("Movie", "Special"))
  ) %>%
  plot_ly(
    type = 'scatter',
    mode = 'markers',
    x = ~index,
    y = ~imdb,
    color = ~ranking,
    colors = color_scheme1,
    text = ~paste0("<b>", title, "</b><br>",
                  "<i>Season ", season, " of Series ", series_name, "</i><br><br>",
                  "Aired ", date_aired, " on ", network, "<br>",
                  "IMDb Score ", imdb, " (Number of Reviews: ", engagement, ")")
  ) %>%
  layout(
    title = 'IMDb scores of Scooby Doo episodes over time',
    xaxis = list(title = 'Episode Index (according to Scoobypedia)'),
    yaxis = list(title = 'IMDb Score'),
    width = 900,
    height = 400,
    legend = list(orientation = 'h', y = -0.3)
  )

Monsters

# collapse columns
monsters <- scoobydoo %>%
  mutate(
    # caught
    caught_fred = str_replace(caught_fred, "TRUE", "Fred"),
    caught_daphnie = str_replace(caught_daphnie, "TRUE", "Daphnie"),
    caught_velma = str_replace(caught_velma, "TRUE", "Velma"),
    caught_shaggy = str_replace(caught_shaggy, "TRUE", "Shaggy"),
    caught_scooby = str_replace(caught_scooby, "TRUE", "Scooby"),
    
    # captured
    captured_fred = str_replace(captured_fred, "TRUE", "Fred"),
    captured_daphnie = str_replace(captured_daphnie, "TRUE", "Daphnie"),
    captured_velma = str_replace(captured_velma, "TRUE", "Velma"),
    captured_shaggy = str_replace(captured_shaggy, "TRUE", "Shaggy"),
    captured_scooby = str_replace(captured_scooby, "TRUE", "Scooby"),
    
    # unmasked
    unmask_fred = str_replace(unmask_fred, "TRUE", "Fred"),
    unmask_daphnie = str_replace(unmask_daphnie, "TRUE", "Daphnie"),
    unmask_velma = str_replace(unmask_velma, "TRUE", "Velma"),
    unmask_shaggy = str_replace(unmask_shaggy, "TRUE", "Shaggy"),
    unmask_scooby = str_replace(unmask_scooby, "TRUE", "Scooby"),
  )

Who caught the monsters?

# tidy data frame for monsters caught
caught_df <- monsters
caught_df$caught_by <- apply(caught_df %>% select(starts_with("caught_")), 1, function(x) paste(x[x != "FALSE" & x != "NULL"], collapse = ","))
caught_df$caught_by[is.na(caught_df$caught_by)] <- "Not Caught"
caught_df <- caught_df %>%
  separate_rows(caught_by, sep = ",") %>%
  filter(
    caught_by %in% the_gang
  )
# table of most catches
count(caught_df, caught_by) %>%
  arrange(desc(n))

Who was captured by monsters the most?

# tidy data frame for captured by the monster
captured_df <- monsters
captured_df$captured <- apply(captured_df %>% select(starts_with("captured_")), 1, function(x) paste(x[x != "FALSE" & x != "NULL"], collapse = ","))
#captured$captured_by[is.na(captured$caught_by)] <- "Not Caught"
captured_df <- captured_df %>%
  separate_rows(captured, sep = ",") %>%
  filter(
    captured %in% the_gang
  )
count(captured_df, captured) %>%
  arrange(desc(n))
# plot the relationship
captured_df2 <- captured_df %>%
  mutate(
    year = year(date_aired),
    real = ifelse(monster_real == "TRUE", "Real", "Fake"),
    monster_details = paste0(monster_name, " (", real, " Monster(s)) in '", title, "' on ", date_aired, ".")
  ) %>%
  group_by(year, captured) %>%
  dplyr::summarise(
    n = n(),
    captured_details = paste(monster_details, collapse = "\n")
  )

plot_monsters_captures <- function(gang_member, df = captured_df2) {
  fig <- df %>%
    filter(captured == gang_member) %>%
    plot_ly(
      type = 'bar',
      x = ~year,
      y = ~n,
      text = ~paste0("<b>Captured By...</b><br><br>",
                     captured_details),
      showlegend = FALSE
    ) %>%
    layout(
      xaxis = list(
        showline = TRUE,
        showticklabels = FALSE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(captured_df2$year), max(captured_df2$year))
      ),
      yaxis = list(
        title = ~paste0("<b>", gang_member, "</b>"),
        showline = TRUE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(captured_df2$n), max(captured_df2$n) + 1)
      )
    )
  
  fig
}

subplot(
  plot_monsters_captures("Fred"),
  plot_monsters_captures("Daphnie"),
  plot_monsters_captures("Velma"),
  plot_monsters_captures("Shaggy"),
  plot_monsters_captures("Scooby"),
  nrows = length(the_gang),
  shareX = FALSE,
  shareY = FALSE,
  titleX = FALSE,
  titleY = TRUE
) %>%
  layout(
    mode = 'lines+markers',
    title = '<b><i>Jinkies! ... has been captured by the monster!</i></b>',
    width = 900,
    height = 600,
    legend = list(orientation = 'h')
  )

Who unmasked the most monsters?

# tidy data frame for captured by the monster
unmasked_df <- monsters
unmasked_df$unmasked_by <- apply(unmasked_df %>% select(starts_with("unmask_")), 1, function(x) paste(x[x != "FALSE" & x != "NULL"], collapse = ","))
unmasked_df$unmasked_by[is.na(unmasked_df$unmasked_by)] <- "Not Unmasked"
unmasked_df <- unmasked_df %>%
  separate_rows(unmasked_by, sep = ",") %>%
  filter(
    unmasked_by %in% the_gang
  )
count(unmasked_df, unmasked_by) %>%
  arrange(desc(n))
# plot the relationship
unmasked_df2 <- unmasked_df %>%
  mutate(
    year = year(date_aired),
    real = ifelse(monster_real == "TRUE", "Real", "Fake"),
    monster_details = paste0(monster_name, " (", real, " Monster(s)) in '", title, "' on ", date_aired, ".")
  ) %>%
  group_by(year, unmasked_by) %>%
  dplyr::summarise(
    n = n(),
    unmask_details = paste(monster_details, collapse = "\n")
  )

plot_monsters_unmasks <- function(gang_member, df = unmasked_df2) {
  fig <- df %>%
    filter(unmasked_by == gang_member) %>%
    plot_ly(
      type = 'bar',
      x = ~year,
      y = ~n,
      text = ~paste0("<b>Unmasked By...</b><br><br>",
                     unmask_details),
      showlegend = FALSE
    ) %>%
    layout(
      xaxis = list(
        showline = TRUE,
        showticklabels = FALSE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(unmasked_df2$year), max(unmasked_df2$year))
      ),
      yaxis = list(
        title = ~paste0("<b>", gang_member, "</b>"),
        showline = TRUE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(unmasked_df2$n), max(unmasked_df2$n) + 1)
      )
    )
  
  fig
}

subplot(
  plot_monsters_unmasks("Fred"),
  plot_monsters_unmasks("Daphnie"),
  plot_monsters_unmasks("Velma"),
  plot_monsters_unmasks("Shaggy"),
  plot_monsters_unmasks("Scooby"),
  nrows = length(the_gang),
  shareX = FALSE,
  shareY = FALSE,
  titleX = FALSE,
  titleY = TRUE
) %>%
  layout(
    mode = 'lines+markers',
    title = '<b><i>Monsters Unmasked Annualy By...</i></b>',
    width = 900,
    height = 600,
    legend = list(orientation = 'h')
  )

What monster types are most likely to get away?

n_not_caught <- nrow(filter(scoobydoo, caught_not == "TRUE"))
got_away_rate <- paste0(round(100 * (n_not_caught / nrow(scoobydoo)), 2), "%")

First of all, the monster(s) got away at the end of only 31 out of 603 episodes (rate of 5.14%). Of those 31, the following breaks down the success rate by monster type.

escape_stats <- scoobydoo %>%
  filter(caught_not == "TRUE") %>%
  # looks like there were a few mispellings
  mutate(monster_type = ifelse(str_detect(monster_type, "(Disguised|Disguised|Disugised)"), "Disguised", monster_type)) %>%
  separate_rows(monster_type, sep = ",") %>%
  group_by(monster_type) %>%
  dplyr::summarise(
    n_escaped = n(),
    mean_imdb_escaped = mean(as.double(imdb))
  )

imdb_effect_categories <- c(
  "Better Than Average Episode",
  "Slightly Better Than Average Episode",
  "Slightly Worse Than Average Episode",
  "Worse Than Average Episode"
)

escape_stats2 <- scoobydoo %>%
  mutate(monster_type = ifelse(str_detect(monster_type, "(Disguised|Disguised|Disugised)"), "Disguised", monster_type)) %>%
  separate_rows(monster_type, sep = ",") %>%
  filter(imdb != "NULL") %>%
  group_by(monster_type) %>%
  dplyr::summarise(
    n_total = n(),
    mean_imdb = mean(as.double(imdb))
  ) %>%
  inner_join(escape_stats) %>%
  mutate(
    escape_rate = round(100 * (n_escaped / n_total)),
    escape_imdb_effect = mean_imdb_escaped - mean_imdb,
    imdb_effect_category = case_when(
      escape_imdb_effect < -1 ~ "Worse Than Average Episode",
      escape_imdb_effect < 0 ~ "Slightly Worse Than Average Episode",
      escape_imdb_effect < 1 ~ "Slightly Better Than Average Episode",
      escape_imdb_effect >= 1 ~ "Better Than Average Episode"
    ),
    imdb_effect_category = factor(imdb_effect_category, levels = imdb_effect_categories)
  )

escape_stats2 %>%
  plot_ly(
    type = 'bar',
    x = ~fct_reorder(monster_type, escape_rate, .desc = TRUE),
    y = ~escape_rate,
    color = ~imdb_effect_category,
    colors = color_scheme2,
    text = ~paste0("<b>", monster_type, "</b><br><br>", 
                   "Escaped ", n_escaped, " out of ", n_total, " episodes.<br>",
                   "Average Episode IMDb Score (All): ", round(mean_imdb, 1), "<br>",
                   "Average Episode IMDb Score (Escaped): ", round(mean_imdb_escaped, 1))
  ) %>%
  layout(
    title = 'How often do Scooby Doo monsters go uncaught, and how does that affect the episode?',
    xaxis = list(title = "Monster Type"),
    yaxis = list(title = "Escape Rate (%)"),
    legend = list(orientation = 'h', y = -0.3),
    width = 900,
    height = 500
  )
---
title: "20210713 - Scooby Doo"
author: "Nick Cruickshank"
date: "7/14/2021"
output: 
  html_notebook:
    toc: true
    df_print: paged
---

```{r setup, include=FALSE}
knitr::opts_chunk$set(echo = TRUE, message=FALSE, warning=FALSE)
```

```{r libraries}
# libraries
library(forcats)
library(lubridate)
library(plotly)
library(readr)
library(tidyverse)
```

```{r}
# data
scoobydoo <- readr::read_csv('https://raw.githubusercontent.com/rfordatascience/tidytuesday/master/data/2021/2021-07-13/scoobydoo.csv')
```

![scooby doo](https://media.avalonhill.wizards.com/styles/second_hubpage_banner/public/images/dynamichubpage/lwclkwcwqcn.jpg)

# Introduction

This weeks [Tidy Tuesday](https://github.com/rfordatascience/tidytuesday/tree/master/data/2021/2021-07-13) dataset comes from [Kaggle](https://www.kaggle.com/williamschooleman/scoobydoo-complete) by way of manual data aggregation from [plummye](https://www.kaggle.com/williamschooleman).

> Every Scooby-Doo episode and movie's various variables.
>
> Took ~1 year to watch every Scooby-Doo iteration and track every variable. Many values are subjective by nature of watching but I tried my hardest to keep the data collection consistent.
>
> If you plan to use this data for anything school/entertainment related you are free to (credit is always welcome).

Notebook can be viewed by pasting the github URL to this document into https://nbviewer.jupyter.org/.

```{r}
scoobydoo %>% head(5)
```

```{r}
# values
color_scheme1 <- c(
  "#228B22", # aka forest green (Best)
  "#98FB98", # aka pale green (Top 3)
  "#D3D3D3", # aka light grey (Other)
  "#FFB6C1", # aka light pink (Bottom 3)
  "#DC143C" # aka crimson (Worst)
  )

color_scheme2 <- c(
  "#228B22", # aka forest green (Great)
  "#98FB98", # aka pale green (OK)
  "#FFB6C1", # aka light pink (Meh)
  "#DC143C" # aka crimson (Worst)
  )

the_gang <- c("Fred", "Daphnie", "Velma", "Shaggy", "Scooby")
```

# IMDb Time Series Analysis

## By Series

```{r}
## get summary info for each season
series_info <- scoobydoo %>%
  filter(
    !(season %in% c("Movie", "Special"))
  ) %>%
  mutate(
    year = year(date_aired),
    imdb = as.double(imdb),
    engagement = as.double(engagement)
  ) %>%
  group_by(series_name, network) %>%
  dplyr::summarise(
    series_start = min(date_aired),
    series_end = max(date_aired),
    n_episodes = n(),
    mean_imdb = mean(imdb, na.rm = TRUE),
    mean_engagement = mean(engagement, na.rm = TRUE)
  ) %>%
  ungroup() %>%
  filter(n_episodes > 1) %>% # filter out movie events
  arrange(series_start, series_end) %>%
  mutate(
    series_id = as.double(row_number())
  )

series_info <- series_info %>%
  mutate(
    ranking = case_when(
      series_id == head(arrange(series_info, desc(mean_imdb)), 1)$series_id ~ "Best Series",
      series_id %in% head(arrange(series_info, desc(mean_imdb)), 3)$series_id ~ "Top 3 Series",
      series_id == head(arrange(series_info, mean_imdb), 1)$series_id ~ "Worst Series",
      series_id %in% head(arrange(series_info, mean_imdb), 3)$series_id ~ "Bottom 3 Series",
      TRUE ~ "Other"
    ),
    ranking = factor(ranking, levels = c("Best Series", "Top 3 Series", "Other", "Bottom 3 Series", "Worst Series"))
  )
```

```{r scooby series imdb timeline}
# plot series over time
series_info %>%
  plot_ly(
    type = 'bar',
    mode = 'markers',
    x = ~series_id,
    y = ~mean_imdb,
    color = ~ranking,
    colors = color_scheme1,
    text = ~paste0("<b>", series_name, "</b><br>",
                   "<i>Aired from ", series_start, " to ", series_end, " on ", network, "</i><br><br>",
                   "Mean IMDb Score: ", round(mean_imdb, 2), " (Number of Reviews: ", round(mean_engagement), ")<br>",
                   "Episodes: ", n_episodes, "<br>")
  ) %>%
  layout(
    title = 'IMDb Scores for Scooby Doo Series Over Time',
    xaxis = list(title = 'Sequential Series Number', showticklabels = FALSE),
    yaxis = list(title = 'Mean IMDb Score'),
    legend = list(orientation = 'h', y = -0.3),
    width = 900,
    height = 400
  )
```

## By Seasons

```{r}
## get summary info for each season
season_info <- scoobydoo %>%
  mutate(
    year = year(date_aired),
    imdb = as.double(imdb),
    engagement = as.double(engagement)
  ) %>%
  group_by(series_name, network, season) %>%
  dplyr::summarise(
    season_start = min(date_aired),
    season_end = max(date_aired),
    n_episodes = n(),
    mean_imdb = mean(imdb, na.rm = TRUE),
    mean_engagement = mean(engagement, na.rm = TRUE)
  ) %>%
  ungroup() %>%
  filter(n_episodes > 1 & !(season %in% c("Movie", "Special"))) %>% # filter out movie events
  arrange(season_start, season_end) %>%
  mutate(
    season_id = as.double(row_number())
  )

season_info <- season_info %>%
  mutate(
    ranking = case_when(
      season_id == head(arrange(season_info, desc(mean_imdb)), 1)$season_id ~ "Best Season",
      season_id %in% head(arrange(season_info, desc(mean_imdb)), 3)$season_id ~ "Top 3 Season",
      season_id == head(arrange(season_info, mean_imdb), 1)$season_id ~ "Worst Season",
      season_id %in% head(arrange(season_info, mean_imdb), 3)$season_id ~ "Bottom 3 Season",
      TRUE ~ "Other"
    ),
    ranking = factor(ranking, levels = c("Best Season", "Top 3 Season", "Other", "Bottom 3 Season", "Worst Season"))
  )
```

The average Scooby Doo TV series has `r mean(count(season_info, series_name)$n)` seasons. That's so few!

```{r scooby season imdb timeline}
# plot season over time
season_info %>%
  plot_ly(
    type = 'bar',
    mode = 'markers',
    x = ~season_id,
    y = ~mean_imdb,
    color = ~ranking,
    colors = color_scheme1,
    text = ~paste0("<b>", series_name, " - Season ", season, "</b><br>",
                   "<i>Aired from ", season_start, " to ", season_end, " on ", network, "</i><br><br>",
                   "Mean IMDb Score: ", round(mean_imdb, 2), " (Number of Reviews: ", round(mean_engagement), ")<br>",
                   "Episodes: ", n_episodes, "<br>")
  ) %>%
  layout(
    title = 'IMDb Scores for Scooby Doo Seasons Over Time',
    xaxis = list(title = 'Sequential Season Number', showticklabels = FALSE),
    yaxis = list(title = 'Mean IMDb Score'),
    legend = list(orientation = 'h', y = -0.3),
    width = 900,
    height = 400
  )
```


## By Episodes

```{r scooby imdb timeline, fig.height=5, fig.width=10}
scoobydoo %>%
  left_join(series_info, by = c("series_name", "network")) %>%
    filter(
    !(is.na(imdb)),
    imdb != "NULL",
    engagement != "NULL",
    !(season %in% c("Movie", "Special"))
  ) %>%
  plot_ly(
    type = 'scatter',
    mode = 'markers',
    x = ~index,
    y = ~imdb,
    color = ~ranking,
    colors = color_scheme1,
    text = ~paste0("<b>", title, "</b><br>",
                  "<i>Season ", season, " of Series ", series_name, "</i><br><br>",
                  "Aired ", date_aired, " on ", network, "<br>",
                  "IMDb Score ", imdb, " (Number of Reviews: ", engagement, ")")
  ) %>%
  layout(
    title = 'IMDb scores of Scooby Doo episodes over time',
    xaxis = list(title = 'Episode Index (according to Scoobypedia)'),
    yaxis = list(title = 'IMDb Score'),
    width = 900,
    height = 400,
    legend = list(orientation = 'h', y = -0.3)
  )
```

# Monsters 

```{r}
# collapse columns
monsters <- scoobydoo %>%
  mutate(
    # caught
    caught_fred = str_replace(caught_fred, "TRUE", "Fred"),
    caught_daphnie = str_replace(caught_daphnie, "TRUE", "Daphnie"),
    caught_velma = str_replace(caught_velma, "TRUE", "Velma"),
    caught_shaggy = str_replace(caught_shaggy, "TRUE", "Shaggy"),
    caught_scooby = str_replace(caught_scooby, "TRUE", "Scooby"),
    
    # captured
    captured_fred = str_replace(captured_fred, "TRUE", "Fred"),
    captured_daphnie = str_replace(captured_daphnie, "TRUE", "Daphnie"),
    captured_velma = str_replace(captured_velma, "TRUE", "Velma"),
    captured_shaggy = str_replace(captured_shaggy, "TRUE", "Shaggy"),
    captured_scooby = str_replace(captured_scooby, "TRUE", "Scooby"),
    
    # unmasked
    unmask_fred = str_replace(unmask_fred, "TRUE", "Fred"),
    unmask_daphnie = str_replace(unmask_daphnie, "TRUE", "Daphnie"),
    unmask_velma = str_replace(unmask_velma, "TRUE", "Velma"),
    unmask_shaggy = str_replace(unmask_shaggy, "TRUE", "Shaggy"),
    unmask_scooby = str_replace(unmask_scooby, "TRUE", "Scooby"),
  )
```

## Who caught the monsters?

```{r}
# tidy data frame for monsters caught
caught_df <- monsters
caught_df$caught_by <- apply(caught_df %>% select(starts_with("caught_")), 1, function(x) paste(x[x != "FALSE" & x != "NULL"], collapse = ","))
caught_df$caught_by[is.na(caught_df$caught_by)] <- "Not Caught"
caught_df <- caught_df %>%
  separate_rows(caught_by, sep = ",") %>%
  filter(
    caught_by %in% the_gang
  )
```

```{r}
# table of most catches
count(caught_df, caught_by) %>%
  arrange(desc(n))
```

```{r}
# plot the relationship over time
caught_df2 <- caught_df %>%
  mutate(
    year = year(date_aired),
    real = ifelse(monster_real == "TRUE", "Real", "Fake"),
    monster_details = paste0(monster_name, " (", real, " Monster(s)) in '", title, "' on ", date_aired, ".")
  ) %>%
  group_by(year, caught_by) %>%
  dplyr::summarise(
    n = n(),
    caught_names = paste(monster_details, collapse = "\n")
  )

plot_monsters_caught <- function(gang_member, df = caught_df2) {
  fig <- df %>%
    filter(caught_by == gang_member) %>%
    plot_ly(
      type = 'bar',
      x = ~year,
      y = ~n,
      text = ~paste0("<b>Monsters Caught</b><br><br>",
                     caught_names),
      showlegend = FALSE
    ) %>%
    layout(
      xaxis = list(
        showline = TRUE,
        showticklabels = FALSE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(caught_df2$year), max(caught_df2$year))
      ),
      yaxis = list(
        title = ~paste0("<b>", gang_member, "</b>"),
        showline = TRUE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(caught_df2$n), max(caught_df2$n) + 1)
      )
    )
  
  fig
}

subplot(
  plot_monsters_caught("Fred"),
  plot_monsters_caught("Daphnie"),
  plot_monsters_caught("Velma"),
  plot_monsters_caught("Shaggy"),
  plot_monsters_caught("Scooby"),
  nrows = length(the_gang),
  shareX = FALSE,
  shareY = FALSE,
  titleX = FALSE,
  titleY = TRUE
) %>%
  layout(
    mode = 'lines+markers',
    title = '<b><i>Monsters Captured Annualy By...</i></b>',
    width = 900,
    height = 600,
    legend = list(orientation = 'h')
  )
```


## Who was captured by monsters the most?

```{r}
# tidy data frame for captured by the monster
captured_df <- monsters
captured_df$captured <- apply(captured_df %>% select(starts_with("captured_")), 1, function(x) paste(x[x != "FALSE" & x != "NULL"], collapse = ","))
#captured$captured_by[is.na(captured$caught_by)] <- "Not Caught"
captured_df <- captured_df %>%
  separate_rows(captured, sep = ",") %>%
  filter(
    captured %in% the_gang
  )
```

```{r}
count(captured_df, captured) %>%
  arrange(desc(n))
```

```{r}
# plot the relationship
captured_df2 <- captured_df %>%
  mutate(
    year = year(date_aired),
    real = ifelse(monster_real == "TRUE", "Real", "Fake"),
    monster_details = paste0(monster_name, " (", real, " Monster(s)) in '", title, "' on ", date_aired, ".")
  ) %>%
  group_by(year, captured) %>%
  dplyr::summarise(
    n = n(),
    captured_details = paste(monster_details, collapse = "\n")
  )

plot_monsters_captures <- function(gang_member, df = captured_df2) {
  fig <- df %>%
    filter(captured == gang_member) %>%
    plot_ly(
      type = 'bar',
      x = ~year,
      y = ~n,
      text = ~paste0("<b>Captured By...</b><br><br>",
                     captured_details),
      showlegend = FALSE
    ) %>%
    layout(
      xaxis = list(
        showline = TRUE,
        showticklabels = FALSE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(captured_df2$year), max(captured_df2$year))
      ),
      yaxis = list(
        title = ~paste0("<b>", gang_member, "</b>"),
        showline = TRUE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(captured_df2$n), max(captured_df2$n) + 1)
      )
    )
  
  fig
}

subplot(
  plot_monsters_captures("Fred"),
  plot_monsters_captures("Daphnie"),
  plot_monsters_captures("Velma"),
  plot_monsters_captures("Shaggy"),
  plot_monsters_captures("Scooby"),
  nrows = length(the_gang),
  shareX = FALSE,
  shareY = FALSE,
  titleX = FALSE,
  titleY = TRUE
) %>%
  layout(
    mode = 'lines+markers',
    title = '<b><i>Jinkies! ... has been captured by the monster!</i></b>',
    width = 900,
    height = 600,
    legend = list(orientation = 'h')
  )
```

## Who unmasked the most monsters?

```{r}
# tidy data frame for captured by the monster
unmasked_df <- monsters
unmasked_df$unmasked_by <- apply(unmasked_df %>% select(starts_with("unmask_")), 1, function(x) paste(x[x != "FALSE" & x != "NULL"], collapse = ","))
unmasked_df$unmasked_by[is.na(unmasked_df$unmasked_by)] <- "Not Unmasked"
unmasked_df <- unmasked_df %>%
  separate_rows(unmasked_by, sep = ",") %>%
  filter(
    unmasked_by %in% the_gang
  )
```

```{r}
count(unmasked_df, unmasked_by) %>%
  arrange(desc(n))
```

```{r}
# plot the relationship
unmasked_df2 <- unmasked_df %>%
  mutate(
    year = year(date_aired),
    real = ifelse(monster_real == "TRUE", "Real", "Fake"),
    monster_details = paste0(monster_name, " (", real, " Monster(s)) in '", title, "' on ", date_aired, ".")
  ) %>%
  group_by(year, unmasked_by) %>%
  dplyr::summarise(
    n = n(),
    unmask_details = paste(monster_details, collapse = "\n")
  )

plot_monsters_unmasks <- function(gang_member, df = unmasked_df2) {
  fig <- df %>%
    filter(unmasked_by == gang_member) %>%
    plot_ly(
      type = 'bar',
      x = ~year,
      y = ~n,
      text = ~paste0("<b>Unmasked By...</b><br><br>",
                     unmask_details),
      showlegend = FALSE
    ) %>%
    layout(
      xaxis = list(
        showline = TRUE,
        showticklabels = FALSE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(unmasked_df2$year), max(unmasked_df2$year))
      ),
      yaxis = list(
        title = ~paste0("<b>", gang_member, "</b>"),
        showline = TRUE,
        mirror = "ticks",
        linecolor = toRGB("black"),
        linewidth = 2,
        range = c(min(unmasked_df2$n), max(unmasked_df2$n) + 1)
      )
    )
  
  fig
}

subplot(
  plot_monsters_unmasks("Fred"),
  plot_monsters_unmasks("Daphnie"),
  plot_monsters_unmasks("Velma"),
  plot_monsters_unmasks("Shaggy"),
  plot_monsters_unmasks("Scooby"),
  nrows = length(the_gang),
  shareX = FALSE,
  shareY = FALSE,
  titleX = FALSE,
  titleY = TRUE
) %>%
  layout(
    mode = 'lines+markers',
    title = '<b><i>Monsters Unmasked Annualy By...</i></b>',
    width = 900,
    height = 600,
    legend = list(orientation = 'h')
  )
```

## What monster types are most likely to get away?

```{r}
n_not_caught <- nrow(filter(scoobydoo, caught_not == "TRUE"))
got_away_rate <- paste0(round(100 * (n_not_caught / nrow(scoobydoo)), 2), "%")
```

First of all, the monster(s) got away at the end of only `r n_not_caught` out of `r nrow(scoobydoo)` episodes (rate of `r got_away_rate`). Of those `r n_not_caught`, the following breaks down the success rate by monster type.

```{r}
escape_stats <- scoobydoo %>%
  filter(caught_not == "TRUE") %>%
  # looks like there were a few mispellings
  mutate(monster_type = ifelse(str_detect(monster_type, "(Disguised|Disguised|Disugised)"), "Disguised", monster_type)) %>%
  separate_rows(monster_type, sep = ",") %>%
  group_by(monster_type) %>%
  dplyr::summarise(
    n_escaped = n(),
    mean_imdb_escaped = mean(as.double(imdb))
  )

imdb_effect_categories <- c(
  "Better Than Average Episode",
  "Slightly Better Than Average Episode",
  "Slightly Worse Than Average Episode",
  "Worse Than Average Episode"
)

escape_stats2 <- scoobydoo %>%
  mutate(monster_type = ifelse(str_detect(monster_type, "(Disguised|Disguised|Disugised)"), "Disguised", monster_type)) %>%
  separate_rows(monster_type, sep = ",") %>%
  filter(imdb != "NULL") %>%
  group_by(monster_type) %>%
  dplyr::summarise(
    n_total = n(),
    mean_imdb = mean(as.double(imdb))
  ) %>%
  inner_join(escape_stats) %>%
  mutate(
    escape_rate = round(100 * (n_escaped / n_total)),
    escape_imdb_effect = mean_imdb_escaped - mean_imdb,
    imdb_effect_category = case_when(
      escape_imdb_effect < -1 ~ "Worse Than Average Episode",
      escape_imdb_effect < 0 ~ "Slightly Worse Than Average Episode",
      escape_imdb_effect < 1 ~ "Slightly Better Than Average Episode",
      escape_imdb_effect >= 1 ~ "Better Than Average Episode"
    ),
    imdb_effect_category = factor(imdb_effect_category, levels = imdb_effect_categories)
  )

escape_stats2 %>%
  plot_ly(
    type = 'bar',
    x = ~fct_reorder(monster_type, escape_rate, .desc = TRUE),
    y = ~escape_rate,
    color = ~imdb_effect_category,
    colors = color_scheme2,
    text = ~paste0("<b>", monster_type, "</b><br><br>", 
                   "Escaped ", n_escaped, " out of ", n_total, " episodes.<br>",
                   "Average Episode IMDb Score (All): ", round(mean_imdb, 1), "<br>",
                   "Average Episode IMDb Score (Escaped): ", round(mean_imdb_escaped, 1))
  ) %>%
  layout(
    title = 'How often do Scooby Doo monsters go uncaught, and how does that affect the episode?',
    xaxis = list(title = "Monster Type"),
    yaxis = list(title = "Escape Rate (%)"),
    legend = list(orientation = 'h', y = -0.3),
    width = 900,
    height = 500
  )
```
